TY - JOUR
T1 - Ecological restoration and physiology
T2 - An overdue integration
AU - Cooke, Steven J.
AU - Suski, Cory D.
N1 - Funding Information:
We thank the Natural Sciences and Engineering Research Council of Canada, the Canada Foundation for Innovation, the Ontario Research Fund, the Ontario Ministry of Research and Innovation (Early Research Award to S. J. C.), Carleton University, and the University of Illinois for financial support. Lisa Thompson assisted with the final preparation of the manuscript. We also thank three anonymous referees for their detailed comments on an earlier version of the manuscript.
PY - 2008/11
Y1 - 2008/11
N2 - There is growing recognition that opportunities exist to use physiology as part of the conservation and management of populations and ecosystems. However, this idea has rarely been extended to the field of restoration ecology. Physiological metrics (e.g., gas exchange, energy transfer and metabolism, stress response, nutritional condition, gene expression) from a range of taxa can be used to understand the function of ecosystems as well as the factors that influence their structure. Such knowledge can assist the development and implementation of effective restoration strategies that recognize the role of habitat quality on organismal performance. Furthermore, physiological tools can be used to monitor the success of restoration projects during their implementation and as part of postproject monitoring. The often rapid response of physiological metrics provides more immediate information, enabling an adaptive approach to restoration, than can usually be obtained if the focus is solely on population- or ecosystem-level metrics. Greater integration of physiological responses into ecological restoration will provide practitioners with fundamental scientific information needed to design, implement, and monitor restoration activities to aid in repairing ecosystems around the globe.
AB - There is growing recognition that opportunities exist to use physiology as part of the conservation and management of populations and ecosystems. However, this idea has rarely been extended to the field of restoration ecology. Physiological metrics (e.g., gas exchange, energy transfer and metabolism, stress response, nutritional condition, gene expression) from a range of taxa can be used to understand the function of ecosystems as well as the factors that influence their structure. Such knowledge can assist the development and implementation of effective restoration strategies that recognize the role of habitat quality on organismal performance. Furthermore, physiological tools can be used to monitor the success of restoration projects during their implementation and as part of postproject monitoring. The often rapid response of physiological metrics provides more immediate information, enabling an adaptive approach to restoration, than can usually be obtained if the focus is solely on population- or ecosystem-level metrics. Greater integration of physiological responses into ecological restoration will provide practitioners with fundamental scientific information needed to design, implement, and monitor restoration activities to aid in repairing ecosystems around the globe.
KW - Ecological restoration
KW - Environmental tolerances
KW - Monitoring
KW - Physiology
KW - Rehabilitation
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U2 - 10.1641/B581009
DO - 10.1641/B581009
M3 - Review article
AN - SCOPUS:55549110091
SN - 0006-3568
VL - 58
SP - 957
EP - 968
JO - BioScience
JF - BioScience
IS - 10
ER -